Plasma splashing from Al and Cu target materials and the growth of thin films on Cu and Al, respectively, has been studied using a Q-switched Nd:YAG laser with a 1064-nm, 80-mJ, 8-ns pulse width as the source of ablation. The target kept rotating and the substrate, Cu for Al and vice versa, was placed at an angle of 15° with respect to the beam axis. During the laser-matter interaction, the targets absorbed thermal energy within the thermal region depth of 4.7 (1.1) nm, yielding an ablated skin depth of 6.7 (4.2) nm. The surface morphology of the exposed targets was studied by analyzing SEM micrographs obtained using a ZEISS SUPRA 35 VP. The obtained results are explained on the basis of different sputtering/ablation mechanisms. Comparativ...
To study the solid Cu ablation in vacuum, two different laser sources operating at 1064 and 308 nm w...
AbstractA nanosecond pulsed Nd-Yag laser, operating at an intensity of about 109 W/cm2, was employed...
This work aims to improve the understanding and the control of femtosecond laser ablation mechanisms...
Large scale wavelike patterns are observed on an aluminum surface after it is ablated by a series of...
The main advantage of ultrashort laser pulses in manufacturing technology is their very high removal...
In spite of the fact that more than five decades have passed since the invention of laser, some topi...
In this contribution, we report on the impact of direct dielectric barrier discharge argon plasma at...
Despite extensive research work, a clear understanding of laser matter interaction in the high energ...
We present the results concerning the physics of the expanding plasma produced by a laser ion source...
Experiments have been carried out to correlate ablated particulate density and size to the number of...
The ultraviolet and visible spectra of plasmas produced by N_2-laser radiation focused onto a copper...
Single Shot Ablation Craters with Ultra-Short Laser Pulses: A Comparative Study D. P. Weber1, *, V. ...
This work offers a novel approach to the investigation of material response in nanosecond laser abla...
A high intensity iodine laser (1.315 μm wavelength) was used to study laser-surface damage in vacuum...
International audienceWe present one-dimensional numerical simulations describing the behavior of so...
To study the solid Cu ablation in vacuum, two different laser sources operating at 1064 and 308 nm w...
AbstractA nanosecond pulsed Nd-Yag laser, operating at an intensity of about 109 W/cm2, was employed...
This work aims to improve the understanding and the control of femtosecond laser ablation mechanisms...
Large scale wavelike patterns are observed on an aluminum surface after it is ablated by a series of...
The main advantage of ultrashort laser pulses in manufacturing technology is their very high removal...
In spite of the fact that more than five decades have passed since the invention of laser, some topi...
In this contribution, we report on the impact of direct dielectric barrier discharge argon plasma at...
Despite extensive research work, a clear understanding of laser matter interaction in the high energ...
We present the results concerning the physics of the expanding plasma produced by a laser ion source...
Experiments have been carried out to correlate ablated particulate density and size to the number of...
The ultraviolet and visible spectra of plasmas produced by N_2-laser radiation focused onto a copper...
Single Shot Ablation Craters with Ultra-Short Laser Pulses: A Comparative Study D. P. Weber1, *, V. ...
This work offers a novel approach to the investigation of material response in nanosecond laser abla...
A high intensity iodine laser (1.315 μm wavelength) was used to study laser-surface damage in vacuum...
International audienceWe present one-dimensional numerical simulations describing the behavior of so...
To study the solid Cu ablation in vacuum, two different laser sources operating at 1064 and 308 nm w...
AbstractA nanosecond pulsed Nd-Yag laser, operating at an intensity of about 109 W/cm2, was employed...
This work aims to improve the understanding and the control of femtosecond laser ablation mechanisms...